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481 results for “palatability”
FIG. 8 in Osteology of a North American goniopholidid (Eutretauranosuchus delfsi) and palate evolution in Neosuchia
FIG. 8. Transverse CT sections through the skull of Eutretauranosuchus delfsi AMNH FARB 570. (A) Tra 359, (B) Tra 400, (C) Tra 435, (D) Tra 555, (E) Tra 585, (F) Tra 616. See appendix 2 for abbreviations.
FIG. 6. Eutretauranosuchus delfsi AMNH FARB 570 in Osteology of a North American goniopholidid (Eutretauranosuchus delfsi) and palate evolution in Neosuchia
FIG. 6. Eutretauranosuchus delfsi AMNH FARB 570 in (A) dorsal, (B) ventral, and (C) right lateral views.
FIG. 17. Eutretauranosuchus delfsi AMNH FARB 570 in Osteology of a North American goniopholidid (Eutretauranosuchus delfsi) and palate evolution in Neosuchia
FIG. 17. Eutretauranosuchus delfsi AMNH FARB 570 postcranial elements. Partial right femur in (A) dorsal, (B) medial, (C) ventral, and (D) lateral views. Partial dorsal osteoderm in (E) dorsal view.
FIG. 19 in Osteology of a North American goniopholidid (Eutretauranosuchus delfsi) and palate evolution in Neosuchia
FIG. 19. Phylogenetic placement of Eutretauranosuchus delfsi (in bold) shown in a strict consensus of mesoeucrocodylian interrelationships from 38 most parsimonious trees of 1322 steps found in our phylogenetic analysis of 301 characters and 88 taxa. The topology of non-mesoeucrocodylian crocodylomorph interrelationships is identical to that presented in Turner and Sertich (2010). CI = 0.285; rescaled CI = 0.192; homoplasy index = 0.715; RI = 0.6858.
FIG. 5. Eutretauranosuchus delfsi AMNH FARB 570 in Osteology of a North American goniopholidid (Eutretauranosuchus delfsi) and palate evolution in Neosuchia
FIG. 5. Eutretauranosuchus delfsi AMNH FARB 570 in (A) dorsal, (B) ventral, and (C) right lateral views. See appendix 2 for abbreviations.
FIG. 1 in Osteology of a North American goniopholidid (Eutretauranosuchus delfsi) and palate evolution in Neosuchia
FIG. 1. Panel mount of Eutretauranosuchus delfsi AMNH FARB 570. The skull has been removed, and the right mandible and cervical region remain.
FIG. 20 in Osteology of a North American goniopholidid (Eutretauranosuchus delfsi) and palate evolution in Neosuchia
FIG. 20. Tracing of ancestral palatal character states (A) 10, (B) 37, and (C) 271 for Goniopholididae. Each row features a description of the character, a cartoon of relevant character states, and a color-coded phylogeny displaying the distribution of the character within Goniopholididae. The palates illustrated in A and B are drawn in ventral view, whereas the vomeral complex in C is drawn in transverse section. Color-coding on the phylogeny is equivalent to the colors used to indicate relevant states on the cartoons. Dotted lines indicate ambiguous reconstruction.
FIG. 10. Crania, palatal view. A, Toromys grandis AMNH 93601 in A Review of the Pattonomys/Toromys Clade (Rodentia: Echimyidae), with Descriptions of a New Toromys Species and a New Genus
FIG. 10. Crania, palatal view. A, Toromys grandis AMNH 93601; B, T. rhipidurus BMNH 28.7.21.89 (holotype); C, T. sp. nov., FMNH 55483 (holotype), D, Leiuromys occasius. AMNH 71897; E, Pattonomys punctatus BMNH 98.12.1.18 (holotype); F, P. flavidus USNM 63218 (holotype); G, P. carrikeri AMNH 130790; H, P. semivillosus USNM 280205.
Figure 6. Palatal bones. A in Cranial morphology of Bachia bicolor (Squamata: Gymnophthalmidae) and its postnatal development
Figure 6. Palatal bones. A, vomer, dorsal view. B, vomer, lateral view. C, articulated vomer and septomaxilla in lateral view. D, articulated vomer and septomaxilla in ventral view. E, articulated palatine and pterygoid in dorsal view. Key: ap, anterior process; al, anterolateral process; cf, columellar fossa; dc, dorsal crest; fjo, fenestra for the Jacobson's organ; lp, lateral process; mp, maxillary process; plp, posterolateral process; pmp, posteromedial process; ptp, pterigoid process; qp, quadrate process; smx, septomaxilla; tf, transverse flange; tp, transverse process; v, vomer; vc, ventral crest; vp, vomerine process. Scale bar = 1 mm.
Figure 11 in Comparative morphology of the dermal palate in squamate reptiles, with comments on phylogenetic implications
Figure 11. Three-dimensional high-resolution X-ray computed tomographic (HRXCT) reconstructions. A, Amphisbaena fuliginosa Linnaeus (1758), ventral view; B, A. fuliginosa, transverse cutaway slice 118; C, Rhineura floridana, ventral view; D, R. floridana, transverse cutaway slice 169. Scale bars = 2 mm.
Figure 12 in Comparative morphology of the dermal palate in squamate reptiles, with comments on phylogenetic implications
Figure 12. Three-dimensional high-resolution X-ray computed tomographic (HRXCT) reconstructions. A, Acontias percivali, ventral view; B, A. percivali, transverse cutaway slice 107; C, Dibamus novaeguineae, ventral view; D, D. novaeguineae, transverse cutaway slice 081; E, Anniella pulchra, ventral view; F, A. pulchra, transverse cutaway slice 152. Scale bars = 2 mm.
Figure 8 in Comparative morphology of the dermal palate in squamate reptiles, with comments on phylogenetic implications
Figure 8. Three-dimensional high-resolution X-ray computed tomographic (HRXCT) reconstructions. A, Varanus exanthematicus (Bosc, 1792), ventral view; B, V. exanthematicus, transverse cutaway slice 106; C, Feylinia polylepis, ventral view; D, F. polylepis, transverse cutaway slice 100. Scale bar = 5 mm.
Figure 5 in Comparative morphology of the dermal palate in squamate reptiles, with comments on phylogenetic implications
Figure 5. Three-dimensional high-resolution X-ray computed tomographic (HRXCT) reconstructions. A, Rhacodactylus auriculatus, ventral view; B, R. auriculatus, transverse cutaway slice 038; C, Saltuarius cornutus, sagittal cutaway slice 176; D, R. auriculatus, sagittal cutaway slice 184. Scale bars = 5 mm.
Figure 4 in Comparative morphology of the dermal palate in squamate reptiles, with comments on phylogenetic implications
Figure 4. Three-dimensional high-resolution X-ray computed tomographic (HRXCT) reconstructions. A, Uromastyx aegyptia, ventral view; B, U. aegyptia, transverse cutaway slice 047; C, Plica plica, sagittal cutaway slice 148; D, Morunasaurus annularis, sagittal cutaway slice 163. Scale bars = 5 mm.
Figure 3 in Comparative morphology of the dermal palate in squamate reptiles, with comments on phylogenetic implications
Figure 3. Three-dimensional high-resolution X-ray computed tomographic (HRXCT) reconstructions of Sphenodon punctatus. A, ventral view; B, transverse cutaway slice 024. Scale bar = 5 mm.
Figure 10 in Comparative morphology of the dermal palate in squamate reptiles, with comments on phylogenetic implications
Figure 10. Three-dimensional high-resolution X-ray computed tomographic (HRXCT) reconstructions. A, Typhlops jamaicensis, transverse cutaway slice 146; B, Lampropeltis getula (Linnaeus, 1766), transverse cutaway slice 089; C, Dibamus novaeguineae, transverse cutaway slice 113; D, T. jamaicensis, transverse cutaway slice 186; E, Homalopsis buccata (Linnaeus, 1758), transverse cutaway slice 081; F, Xenodermus javanicus, transverse cutaway slice 070. Scale bars = 2 mm.
Figure 2 in Comparative morphology of the dermal palate in squamate reptiles, with comments on phylogenetic implications
Figure 2. Three-dimensional high-resolution X-ray computed tomographic (HRXCT) reconstructions. A, Morunasaurus annularis, ventral view; B, M. annularis, transverse cutaway slice 151; C, Tiliqua scincoides (White, 1790), ventral view; D, T. scincoides, transverse cutaway slice 150. Scale bars = 5 mm.
Figure 9 in Comparative morphology of the dermal palate in squamate reptiles, with comments on phylogenetic implications
Figure 9. Three-dimensional high-resolution X-ray computed tomographic (HRXCT) reconstructions. A, Heloderma horridum (Wiegmann, 1829), ventral view; B, H. horridum, sagittal cutaway slice 160; C, Lanthanotus borneensis, ventral view; D, L. borneensis, transverse cutaway slice 067. Scale bars = 5 mm.
Figure 6 in Comparative morphology of the dermal palate in squamate reptiles, with comments on phylogenetic implications
Figure 6. Three-dimensional high-resolution X-ray computed tomographic (HRXCT) reconstructions. A, Lacerta viridis (Laurenti, 1768), ventral view; B, L. viridis, transverse cutaway slice 066; C, L. viridis, sagittal cutaway slice 173; D, L. viridis, transverse cutaway slice 087; E, Cordylus mossambicus (Fitzsimons, 1958), transverse cutaway slice 107. Scale bars = 5 mm.
Figure 7 in Comparative morphology of the dermal palate in squamate reptiles, with comments on phylogenetic implications
Figure 7. Three-dimensional high-resolution X-ray computed tomographic (HRXCT) reconstructions of Ophisaurus apodus. A, ventral view; B, sagittal cutaway slice 161; C, transverse cutaway slice 091. Scale bar = 5 mm.
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Allen Brain Atlas
Allen Brain Atlas is an Allen Institute collection of brain map atlases, datasets, APIs, and analysis tools covering mouse, human, and non-human primate brain resources.
Annotated Behaviour and Observability Dataset (ABODe)
ABODe is a University of Edinburgh DataShare dataset for behavior classification in group-housed mice using home-cage video, identities, bounding boxes, ground-plate positions, and annotator labels.
DANDI Archive for NWB datasets
DANDI is a BRAIN Initiative archive for publishing and sharing neurophysiology data, including electrophysiology, optophysiology, and behavioral data packaged as NWB and related standards.
International Brain Laboratory public data
The International Brain Laboratory public data releases expose standardized mouse decision-making experiments, including Neuropixels recordings, widefield calcium imaging, behavior, and session metadata accessed through the ONE API.
OpenNeuro
OpenNeuro is a free, open platform for sharing neuroimaging datasets, with public search, dataset pages, and download paths for web, S3, DataLad, and the OpenNeuro CLI.